Colorectal cancer |
greater invasion depth (T3–4), presence of venous invasion, higher tumor stage (III and IV), and higher recurrence rate |
[61] |
|
CEA diagnostic marker |
[62] |
|
carcinogenesis and metastasis development in a xenograft model |
[63] |
|
USP11 levels influence colon cancer drug resistance |
[64] |
Pancreatic cancer |
lymph node metastasis and disease-free and overall survival |
[65] |
|
low levels of miR-198 and poor patient outcomes |
[66] |
|
high levels of Ki-67 and a malignant prognosis |
[65] |
Liver cancer |
shorter disease-free and overall survival |
[67] |
|
low levels of miR-129-5p and HCC development and progression |
[68] |
|
high levels of Neat1 and HCC diagnosis and treatment |
[69] |
|
sorafenib response in HCC cells |
[70] |
|
PTPRO levels |
[71] |
Gastric cancer |
greater tumor size, presence of vascular and lymphatic invasion, lymph node metastasis, and shorter overall and disease free survival |
[72] |
|
cell survival, degradation of cellular regulators, and gastric carcinogenesis |
[73,74] |
|
low levels of CHOP and DR5 |
[75] |
Esophageal cancer |
higher frequencies of lymph node metastasis, deeper invasion, metastasis, and shorter disease free and overall survival |
[76] |
|
shorter overall survival |
[77] |
Breast cancer |
shorter overall survival |
[78] |
|
poor outcomes of triple-negative patients receiving chemotherapy |
[79,80] |
|
lower survival rates |
[81] |
|
expression of the SOX2 protein |
[82] |
Prostate cancer |
poor prognosis and increased metastatic potential |
[83] |
|
high levels of IL-6 |
[84] |
|
maintenance of mitochondrial activity |
[85] |
Lung cancer |
shorter disease-free and overall survival |
[86] |
|
NSCLC development, progression and metastasis |
[87] |
|
low levels of miR-129 and NSCLC development and progression |
[88] |
|
increased levels of ER stress and EMT markers, chemoresistance and shorter patient survival |
[89] |
Bone cancer |
higher metastatic potential (LM8) |
[90,91] |
|
expression of the Aurora B protein |
[92] |
|
low levels of miR-129-5p and osteosarcoma development and progression |
[93] |
|
autophagy, anoikis resistance and osteosarcoma metastasis |
[94] |
|
apoptotic response modulated by SAP |
[95] |
|
cellular transformation and tumorigenesis |
[96] |
Head and neck cancer |
tumor stages, lymph node metastasis and shorter overall survival |
[97] |
|
development of carcinoma in situ lesions and invasivity |
[98] |
|
better 5-year disease-free survival rates for HPV-negative patients |
[99] |
|
clinical outcomes of chemo-radiotherapy |
[100] |
Thyroid cancer |
disease recurrence in patients with follicular thyroid carcinoma |
[101] |
|
BPA exposure |
[102] |
|
shorter disease-free survival and an increased risk of recurrence in patients with papillary thyroid cancer subjected to ablative radioiodine treatment |
[103] |
Hematological cancer |
tumor grade, stage, histological subtype, recurrence and shorter overall and disease-free survival of patients with B-cell lymphoma |
[104] |
|
multiple myeloma development and progression |
[105] |
|
poor prednisone responders in pediatric patients with acute lymphoblastic leukemia |
[106] |
|
exosome generation and secretion in Jurkat tumor cells |
[107] |
Melanoma |
advanced radiotherapy |
[108] |
|
immune escape |
[109] |
Glioblastoma |
radiosensitivity of glioblastoma cells, and survival time of xenografted mice with radiation treatment |
[110,111] |
|
HDAC6 levels and temozolomide resistance therapy |
[112] |
Ovarian cancer |
chemotherapy response in patients receiving the platinum-taxane combination |
[113] |
Testicular cancer |
development of different types of human testicular tumors |
[114] |
Bladder cancer |
shorter survival following bladder removal by cystectomy |
[115] |
Squamous cell carcinoma |
development of squamous cell carcinoma |
[116] |